D 2017

On the synchrotron radiation reaction in external magnetic field

TURSUNOV, Arman and Martin KOLOŠ

Basic information

Original name

On the synchrotron radiation reaction in external magnetic field

Authors

TURSUNOV, Arman (203 Czech Republic, guarantor, belonging to the institution) and Martin KOLOŠ (203 Czech Republic, belonging to the institution)

Edition

1. vyd. Opava (Česká republika), Proceedings of RAGtime 17–19: Workshops on black holes and neutron stars, 17–19/23–26 Oct., 1–5 Nov. 2015/2016/2017, Opava, Czech Republic, p. 211-221, 11 pp. 2017

Publisher

Slezská univerzita v Opavě, Filozoficko–přírodovědecká fakulta v Opavě, Ústav fyziky

Other information

Language

English

Type of outcome

Stať ve sborníku

Field of Study

10308 Astronomy

Country of publisher

Czech Republic

Confidentiality degree

není předmětem státního či obchodního tajemství

Publication form

printed version "print"

References:

RAGtime 17-19

RIV identification code

RIV/47813059:19240/17:A0000035

Organization unit

Faculty of Philosophy and Science in Opava

ISBN

978-80-7510-256-0

ISSN

Keywords in English

radiation reaction; point charge; magnetic field

Tags

International impact, Reviewed

Links

GJ16-03564Y, research and development project.
Změněno: 6/4/2018 09:25, RNDr. Jan Hladík, Ph.D.

Abstract

V originále

We study the dynamics of point electric charges undergoing radiation reaction force due to synchrotron radiation in the presence of external uniform magnetic field. The radiation reaction force cannot be neglected in many physical situations and its presence modifies the equations of motion significantly. The exact form of the equation of motion known as the Lorentz-Dirac equation contains higher order Schott term which leads to the appearance of the runaway solutions. We demonstrate effective computational ways to avoid such unphysical solutions and perform numerical integration of the dynamical equations. We show that in the ultrarelativistic case the Schott term is small and does not have considerable effect to the trajectory of a particle. We compare results with the covariant Landau-Lifshitz equation which is the first iteration of the Lorentz-Dirac equation. Even though the Landau-Lifshitz equation is thought to be approximative solution, we show that in realistic scenarios both approaches lead to identical results.
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